Abstract
This research explores the impact of the superconductor LK-99 on the maintenance and operational costs of quantum computers. Quantum computers have shown great potential in revolutionizing computing by leveraging the principles of quantum mechanics to achieve exceptional computational power. However, the fragility of qubits - the fundamental units of quantum computing - poses significant challenges in terms of errors and decoherence. Efficiently managing quantum errors requires complex error correction techniques and the cooling of qubits to ultra-low temperatures. The concept of room-temperature superconductivity, exemplified by LK-99, offers a transformative solution by potentially reducing the cooling requirements of quantum hardware. This breakthrough could enhance the stability and viability of quantum devices for widespread utilization. This paper investigates the potential benefits of LK-99 in quantum computer operations, highlighting their role in mitigating thermal noise and improving qubit stability. The findings provide valuable insights into the practical implications of integrating superconductors in quantum computing systems, paving the way for more efficient and cost-effective utilization of these powerful machines.